Microsoft Technology Licensing, LLC

Oscar Pawel Kozlowski

Randy Joe Dodgen

Steven Mark Drucker

Roland Lucas Fernandez

Danyel Aharon Fisher

Mark D Schwesinger

Xiaoji Chen

Vikram Padmakar Bapat

Kevin David James Grealish

David Bastien

Anson An-Chun Tsao

Robert Scott Silverstein

Updating graphical user interface elements. A method includes accessing a graphical user interface which includes an initial view including graphical elements. Each of the following are performed (in order) if determined to be applicable: (1) updating in the graphical user interface any pan elements that are outside of the initial view; (2) animating any changes in axes of the graphical user interface to set the stage for data modifications; (3) performing any data element animations in the graphical user interface, including any moves, any additions, any removals and any changes for all updates except those already added in when updating any pan elements that are outside of the initial view and pan element removals that will not be visible in a final view; (4) animating any changes in the axes to the final view; and (5) updating any remaining elements that are now out of view.

Staged animation of charts for data updates

User input in the form of image data is received from a user via a natural user interface. A vector difference between an adjustment start position and a current position of the user input is calculated. The vector difference includes a vector position and a vector length. The vector position is compared to stored rail data, and the vector length is compared to a stored threshold length. The rail data describes a plurality of virtual rails associated with an application. Based on the comparisons, the user input is matched to one of the plurality of virtual rails and a notification describing the matching is provided to the application. The application, thereupon, transitions from a first command to a second command corresponding to the matching virtual rail without receiving any explicit termination gesture for the first command from the user.

Switching input rails without a release command in a natural user interface

Embodiments include accessing a graph including a source node that defines source data, and downstream derived node(s) that receive upstream data and perform a modification operation on the data. A first visualization node, bound to the source node, displays a first visualization of the source data as defined by the source node, including binding a first visualization user interface (UI) element to the source data. A second visualization node, bound to a derived node, displays a second visualization of the source data as modified by the derived node, including binding a second visualization UI element to the data as modified by the derived node. The second visualization is modified based on input at the first visualization, by propagating the input from the source node through the graph to the derived node, and modifying the second visualization UI element at the second visualization to reflect the input.

Data binding graph for interactive chart

Descried herein are various technologies to visualizing data in a spreadsheet application. Customized visualizations are generated by binding a user-defined equation with a parameter of a primitive visual shape that has been selected by the user to visualized a dataset. The user-defined equation takes as input a value of data in a cell of the spreadsheet application, and the primitive visual shape is displayed to the user as a function of the output of the user-defined equation.

Generating customized data bound visualizations

Implementing multi-view visualizations in a computing environment. A method includes accessing a directed acyclic graph defining a data flow. The directed acyclic graph includes one or more data source nodes. The acyclic graph has a first visualization node connected to one of the data source nodes of the directed acyclic graph. The acyclic graph has a second visualization node connected to one of the data source nodes of the directed acyclic graph. The method further includes detecting user interaction with a visualization element of the first visualization node. The method further includes propagating the user interaction with the visualization element to the data source node to which the first visualization node is connected. The method further includes propagating the user interaction with the visualization element from the data source node to which the first visualization node is connected to the second visualization node.

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Seattle, WA, United States of America

Oscar Pawel Kozlowski